Role of High-Fidelity Escherichia coli DNA Polymerase I in Replication Bypass of a Deoxyadenosine DNA-Peptide Cross-Link

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Published inJournal of Bacteriology Vol. 193; no. 15; pp. 3815 - 3821
Main Authors YAMANAKA, Kinrin, MINKO, Irina G, FINKEL, Steven E, GOODMAN, Myron F, STEPHEN LLOYD, R
Format Journal Article
LanguageEnglish
Published Washington, DC American Society for Microbiology 01.08.2011
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Reaction of bifunctional electrophiles with DNA in the presence of peptides can result in DNA-peptide cross-links. In particular, the linkage can be formed in the major groove of DNA via the exocyclic amino group of adenine ( N 6 -dA). We previously demonstrated that an A family human polymerase, Pol ν, can efficiently and accurately synthesize DNA past N 6 -dA-linked peptides. Based on these results, we hypothesized that another member of that family, Escherichia coli polymerase I (Pol I), may also be able to bypass these large major groove DNA lesions. To test this, oligodeoxynucleotides containing a site-specific N 6 -dA dodecylpeptide cross-link were created and utilized for in vitro DNA replication assays using E. coli DNA polymerases. The results showed that Pol I and Pol II could efficiently and accurately bypass this adduct, while Pol III replicase, Pol IV, and Pol V were strongly inhibited. In addition, cellular studies were conducted using E. coli strains that were either wild type or deficient in all three DNA damage-inducible polymerases, i.e., Pol II, Pol IV, and Pol V. When single-stranded DNA vectors containing a site-specific N 6 -dA dodecylpeptide cross-link were replicated in these strains, the efficiencies of replication were comparable, and in both strains, intracellular bypass of the lesion occurred in an error-free manner. Collectively, these findings demonstrate that despite its constrained active site, Pol I can catalyze DNA synthesis past N 6 -dA-linked peptide cross-links and is likely to play an essential role in cellular bypass of large major groove DNA lesions.
Reaction of bifunctional electrophiles with DNA in the presence of peptides can result in DNA-peptide cross-links. In particular, the linkage can be formed in the major groove of DNA via the exocyclic amino group of adenine (N⁶-dA). We previously demonstrated that an A family human polymerase, Pol ν, can efficiently and accurately synthesize DNA past N⁶-dA-linked peptides. Based on these results, we hypothesized that another member of that family, Escherichia coli polymerase I (Pol I), may also be able to bypass these large major groove DNA lesions. To test this, oligodeoxynucleotides containing a site-specific N⁶-dA dodecylpeptide cross-link were created and utilized for in vitro DNA replication assays using E. coli DNA polymerases. The results showed that Pol I and Pol II could efficiently and accurately bypass this adduct, while Pol III replicase, Pol IV, and Pol V were strongly inhibited. In addition, cellular studies were conducted using E. coli strains that were either wild type or deficient in all three DNA damage-inducible polymerases, i.e., Pol II, Pol IV, and Pol V. When single-stranded DNA vectors containing a site-specific N⁶-dA dodecylpeptide cross-link were replicated in these strains, the efficiencies of replication were comparable, and in both strains, intracellular bypass of the lesion occurred in an error-free manner. Collectively, these findings demonstrate that despite its constrained active site, Pol I can catalyze DNA synthesis past N⁶-dA-linked peptide cross-links and is likely to play an essential role in cellular bypass of large major groove DNA lesions.
Reaction of bifunctional electrophiles with DNA in the presence of peptides can result in DNA-peptide cross-links. In particular, the linkage can be formed in the major groove of DNA via the exocyclic amino group of adenine (N...-dA). We previously demonstrated that an A family human polymerase, Pol ..., can efficiently and accurately synthesize DNA past N...-dA-linked peptides. Based on these results, we hypothesized that another member of that family, Escherichia coli polymerase I (Pol I), may also be able to bypass these large major groove DNA lesions. To test this, oligodeoxynucleotides containing a site-specific N...-dA dodecylpeptide cross-link were created and utilized for in vitro DNA replication assays using E. coli DNA polymerases. The results showed that Pol I and Pol II could efficiently and accurately bypass this adduct, while Pol III replicase, Pol IV, and Pol V were strongly inhibited. In addition, cellular studies were conducted using E. coli strains that were either wild type or deficient in all three DNA damage-inducible polymerases, i.e., Pol II, Pol IV, and Pol V. When single-stranded DNA vectors containing a site-specific N...-dA dodecylpeptide cross-link were replicated in these strains, the efficiencies of replication were comparable, and in both strains, intracellular bypass of the lesion occurred in an error-free manner. Collectively, these findings demonstrate that despite its constrained active site, Pol I can catalyze DNA synthesis past N...-dA-linked peptide cross-links and is likely to play an essential role in cellular bypass of large major groove DNA lesions. (ProQuest: ... denotes formulae/symbols omitted.)
ABSTRACT Reaction of bifunctional electrophiles with DNA in the presence of peptides can result in DNA-peptide cross-links. In particular, the linkage can be formed in the major groove of DNA via the exocyclic amino group of adenine ( N 6 -dA). We previously demonstrated that an A family human polymerase, Pol ν, can efficiently and accurately synthesize DNA past N 6 -dA-linked peptides. Based on these results, we hypothesized that another member of that family, Escherichia coli polymerase I (Pol I), may also be able to bypass these large major groove DNA lesions. To test this, oligodeoxynucleotides containing a site-specific N 6 -dA dodecylpeptide cross-link were created and utilized for in vitro DNA replication assays using E. coli DNA polymerases. The results showed that Pol I and Pol II could efficiently and accurately bypass this adduct, while Pol III replicase, Pol IV, and Pol V were strongly inhibited. In addition, cellular studies were conducted using E. coli strains that were either wild type or deficient in all three DNA damage-inducible polymerases, i.e., Pol II, Pol IV, and Pol V. When single-stranded DNA vectors containing a site-specific N 6 -dA dodecylpeptide cross-link were replicated in these strains, the efficiencies of replication were comparable, and in both strains, intracellular bypass of the lesion occurred in an error-free manner. Collectively, these findings demonstrate that despite its constrained active site, Pol I can catalyze DNA synthesis past N 6 -dA-linked peptide cross-links and is likely to play an essential role in cellular bypass of large major groove DNA lesions.
Author R. Stephen Lloyd
Steven E. Finkel
Myron F. Goodman
Irina G. Minko
Kinrin Yamanaka
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Issue 15
Keywords Nucleotidyltransferases
Peptides
Enzyme
Transferases
Escherichia coli
Bacteria
Replication
DNA-directed DNA polymerase
Enterobacteriaceae
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Reaction of bifunctional electrophiles with DNA in the presence of peptides can result in DNA-peptide cross-links. In particular, the linkage can be formed in...
ABSTRACT Reaction of bifunctional electrophiles with DNA in the presence of peptides can result in DNA-peptide cross-links. In particular, the linkage can be...
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StartPage 3815
SubjectTerms Bacteriology
Biological and medical sciences
Cells
Cross-Linking Reagents - chemistry
Deoxyadenosines - chemistry
Deoxyadenosines - genetics
DNA Adducts - chemistry
DNA Adducts - genetics
DNA Damage
DNA Polymerase I - genetics
DNA Polymerase I - metabolism
DNA Repair
DNA Replication
DNA, Bacterial - chemistry
DNA, Bacterial - genetics
DNA, Single-Stranded - genetics
E coli
Escherichia coli - enzymology
Escherichia coli - genetics
Escherichia coli Proteins - genetics
Escherichia coli Proteins - metabolism
Fundamental and applied biological sciences. Psychology
Genetics and Molecular Biology
Microbiology
Miscellaneous
Peptides
Peptides - chemistry
Title Role of High-Fidelity Escherichia coli DNA Polymerase I in Replication Bypass of a Deoxyadenosine DNA-Peptide Cross-Link
URI http://jb.asm.org/content/193/15/3815.abstract
https://www.ncbi.nlm.nih.gov/pubmed/21622737
https://www.proquest.com/docview/879336099
https://pubmed.ncbi.nlm.nih.gov/PMC3147505
Volume 193
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